Quantum AI: From Inspiration to Enhancement β€” A Practical Journey

Quantum ML Workshop Practitioner

Eight chapters run on CPU simulators: physics-informed learning on an oscillator, combinatorial problems as bitstrings, variational circuits with Qiskit and PennyLane, a hybrid classifier, finance and routing QUBOs, tensor-train compression for language-model blocks, and a closing deployment narrative.

8
Stories
GitHub
Theme

Stories in this saga

1Physics-informed learning on an oscillator
2Hard problems as bitstrings
3Circuits, gradients, and variational templates
4Hybrid classifier stack
5Finance: portfolio as a QUBO
6Routing and logistics as QUBOs
7Tensor trains and quantum-inspired compression
8Deployment and governance
Explore Quantum AI practical journey β†’

Quantum Principles Saga

Quantum ML Reinforcement Learning Research

Five stories exploring quantum principles in reinforcement learning: superposition, entanglement, interference, tunnelling, and mixed states. Each story explains a quantum concept and shows how it improves RL algorithms, using theoretical examples and classic environments.

5
Stories
QiRL
Theme

Stories in this saga

1 Superposition
2 Entanglement
3 Interference
4 Tunnelling
5 Mixed States
Explore Quantum Principles Saga β†’

Quantum FAQ

Quantum ML Hardware FAQ

Six story-length answers to the questions people ask when they move from quantum buzzwords to running real circuits: shots, errors, correction, suppression, mitigation, transpilation, simulators, and algorithm parameters.

6
Stories
FAQ
Theme

Stories in this saga

1 Do More Shots Make the Same Qubits Hotter?
2 Why Quantum Machines Make Errors
3 Correction, Suppression, Mitigation: What Is the Difference?
4 Error Correction: What the Machine Does and What You Should Do
5 Transpilation, Device Choice, and Local Simulation
6 How Do We Choose Parameters in Shor, Grover, and Related Algorithms?
Explore Quantum FAQ β†’